void SabreController::printHomeScreen(uint8_t selectedInput, uint8_t attenuation)
{
OLED.defineCustomChar0(); // restore custom character 0
OLED.defineCustomChar1(); // restore custom character 1
OLED.defineCustomChar2(); // restore custom character 2
OLED.clear();
switch (GUI_Substate)
{
case NoVolumeNumbersHS: // Home Screen: No volume numbers
printInputName(0, 0);
printLargeInput(selectedInput, 16);
printSampleRate(0, 2);
printInputFormat(0, 3);
break;
case NoInputNumberHS: // Home Screen: No large input number
printInputName(0, 0);
printSampleRate(0, 2);
printInputFormat(0, 3);
if (sabreDAC.Mute)
{
printLargeMuteSymbol(13);
}
else
{
printLargeAttenuation(attenuation, 13);
}
break;
default: // Home Screen: (default) use large input and volume numbers
printInputName(4, 2);
printLargeInput(selectedInput, 0);
if (sabreDAC.Mute)
{
printLargeMuteSymbol(13);
}
else
{
printLargeAttenuation(attenuation, 13);
}
printSampleRate(0, 0);
printInputFormat(4, 3);
break;
}
NoDisplay = false;
this->GUI_State = HomeScreen;
}
static int
lame_decoder(lame_t gfp, FILE * outf, char *inPath, char *outPath)
{
short int Buffer[2][1152];
int i, iread;
double wavsize;
int tmp_num_channels = lame_get_num_channels(gfp);
int skip_start = samples_to_skip_at_start();
int skip_end = samples_to_skip_at_end();
DecoderProgress dp = 0;
if (!(tmp_num_channels >= 1 && tmp_num_channels <= 2)) {
error_printf("Internal error. Aborting.");
exit(-1);
}
if (global_ui_config.silent < 9) {
console_printf("\rinput: %s%s(%g kHz, %i channel%s, ",
strcmp(inPath, "-") ? inPath : "<stdin>",
strlen(inPath) > 26 ? "\n\t" : " ",
lame_get_in_samplerate(gfp) / 1.e3,
tmp_num_channels, tmp_num_channels != 1 ? "s" : "");
printInputFormat(gfp);
console_printf(")\noutput: %s%s(16 bit, Microsoft WAVE)\n",
strcmp(outPath, "-") ? outPath : "<stdout>",
strlen(outPath) > 45 ? "\n\t" : " ");
if (skip_start > 0)
console_printf("skipping initial %i samples (encoder+decoder delay)\n", skip_start);
if (skip_end > 0)
console_printf("skipping final %i samples (encoder padding-decoder delay)\n", skip_end);
switch (global_reader.input_format) {
case sf_mp3:
case sf_mp2:
case sf_mp1:
dp = decoder_progress_init(lame_get_num_samples(gfp),
global_decoder.mp3input_data.framesize);
break;
case sf_raw:
case sf_wave:
case sf_aiff:
default:
dp = decoder_progress_init(lame_get_num_samples(gfp),
lame_get_in_samplerate(gfp) < 32000 ? 576 : 1152);
break;
}
}
if (0 == global_decoder.disable_wav_header)
WriteWaveHeader(outf, 0x7FFFFFFF, lame_get_in_samplerate(gfp), tmp_num_channels, 16);
/* unknown size, so write maximum 32 bit signed value */
wavsize = 0;
do {
iread = get_audio16(gfp, Buffer); /* read in 'iread' samples */
if (iread >= 0) {
wavsize += iread;
if (dp != 0) {
decoder_progress(dp, &global_decoder.mp3input_data, iread);
}
put_audio16(outf, Buffer, iread, tmp_num_channels);
}
} while (iread > 0);
i = (16 / 8) * tmp_num_channels;
assert(i > 0);
if (wavsize <= 0) {
if (global_ui_config.silent < 10)
error_printf("WAVE file contains 0 PCM samples\n");
wavsize = 0;
}
else if (wavsize > 0xFFFFFFD0 / i) {
if (global_ui_config.silent < 10)
error_printf("Very huge WAVE file, can't set filesize accordingly\n");
wavsize = 0xFFFFFFD0;
}
else {
wavsize *= i;
}
/* if outf is seekable, rewind and adjust length */
if (!global_decoder.disable_wav_header && strcmp("-", outPath)
&& !fseek(outf, 0l, SEEK_SET))
WriteWaveHeader(outf, (int) wavsize, lame_get_in_samplerate(gfp), tmp_num_channels, 16);
fclose(outf);
close_infile();
if (dp != 0)
decoder_progress_finish(dp);
return 0;
}
